Educations

•             ECH3067 : Process Control and Design

Process Control and Design is a foundational course in chemical engineering, designed to equip students with the essential knowledge and theoretical background necessary for the design and control of chemical processes. This course introduces various aspects of chemical process design and control, covering both fundamental concepts and practical applications. Students will explore the key principles of process design, including considerations for safety, efficiency, and sustainability, as well as the use of simulation tools and techniques for designing individual process units.

A major focus of the course is on understanding the dynamic behavior of chemical processes and learning how to model these dynamics to implement effective control strategies. Topics include process dynamics, control loops, and the application of advanced control techniques to real-world chemical processes. Through case studies and hands-on examples, students will gain experience in applying these concepts to solve practical engineering challenges.

By the end of the course, students will have developed the skills to analyze and design control systems for chemical processes, apply process simulation tools, and integrate theoretical knowledge to solve real-world problems in chemical process design and control. This course provides a strong foundation for those pursuing careers in process engineering, where effective process design and control are critical to industrial success.

•             ECH3069 : Chemical Engineering Artificial Intelligence

Chemical Engineering Artificial Intelligence is a forward-thinking course that bridges the gap between artificial intelligence and chemical engineering, preparing students to harness the power of AI in solving complex industrial challenges. The course starts with an introduction to AI and machine learning, providing students with a solid foundation in Python programming and data analysis tools like Numpy and Pandas, essential for handling large datasets in chemical processes.

As the course progresses, students will explore how AI can be applied to key areas of chemical engineering, such as process design, optimization, and fault detection. Through machine learning techniques, students will learn to predict material properties, model chemical processes, and optimize operations for increased efficiency and sustainability. The course emphasizes the practical application of AI to real-world chemical engineering problems, highlighting how advanced algorithms can streamline operations, reduce energy consumption, and improve product quality.

By integrating AI with chemical engineering, the course opens up new possibilities for innovation in areas such as process automation, smart manufacturing, and predictive maintenance. By the end of the course, students will have developed the ability to implement AI-based solutions that enhance decision-making and operational performance in chemical industries, equipping them with the skills necessary for future roles in AI-driven chemical engineering.

•             ECH2005 : Chemical Engineering Thermodynamics I

Chemical Engineering Thermodynamics I is a fundamental course that introduces the core principles of thermodynamics, focusing on their application in chemical processes. The course begins with the first law of thermodynamics, covering energy conservation, phase behavior, and the PVT properties of pure substances and fluids. Students will explore concepts such as enthalpy, entropy, and heat effects, including sensible and latent heat, while learning to apply the second law of thermodynamics to real-world systems like heat engines.

As the course progresses, students will gain a deeper understanding of entropy, residual properties, and thermodynamic relations for gases and liquids. The third law of thermodynamics and the analysis of open systems are also covered. The final part of the course focuses on practical applications, such as flow processes, compressible fluids, and the design of energy systems like turbines, compression processes, and steam power plants.

Through theoretical lessons, problem-solving, and case studies, students will develop the skills to analyze, design, and optimize chemical engineering systems, preparing them for more advanced thermodynamics topics and practical challenges in the field.

•             ECH2007 : Fluid mechanics

Fluid Mechanics is a fundamental course in chemical engineering that delves into the principles governing the behavior of fluids, both in motion and at rest. The course provides a comprehensive understanding of key concepts such as fluid statics, fluid dynamics, viscosity, pressure distribution, and flow behavior in various types of systems. Students will explore the theoretical foundations of fluid mechanics while learning how to apply these principles to solve real-world engineering problems.

Throughout the course, students will engage with topics such as flow through pipes, channels, and closed/open systems, as well as the design and analysis of fluid transport systems. The course also covers key topics like laminar and turbulent flow, boundary layers, and the behavior of non-Newtonian fluids, offering a deep understanding of how different types of fluids behave under varying conditions.

In addition to theoretical studies, the course incorporates practical applications relevant to the chemical engineering industry. Students will learn how fluid mechanics principles are applied to the design of process equipment such as pumps, compressors, and heat exchangers. Hands-on exercises, computational simulations, and case studies will help students develop practical problem-solving skills.

By the end of the course, students will be able to analyze fluid behavior, design fluid transport systems, and apply fluid mechanics principles to the design and operation of chemical processes. The knowledge gained in this course is crucial for those pursuing careers in process engineering, where understanding fluid behavior is essential for optimizing process efficiency and equipment performance.

•             ECH3040 : Process Analysis and Equipment Design

Process Analysis and Device Design is a comprehensive course designed for students in chemical engineering, focusing on the systematic analysis of chemical processes and the detailed design of individual process equipment. The course provides a solid foundation in key engineering principles such as mass and energy balances, thermodynamics, and transport phenomena, which are essential for understanding and optimizing chemical processes.

Throughout the course, students will learn methods to evaluate process performance, considering factors like efficiency, safety, economic viability, and environmental sustainability. Additionally, the course covers the design of critical process equipment, such as reactors, heat exchangers, pumps, and separation units, with attention to how these devices function within larger chemical systems.

By utilizing engineering tools and software, students will develop practical skills for simulating and optimizing process conditions. Hands-on projects, case studies, and problem-solving exercises will offer opportunities to apply theoretical concepts to real-world design challenges.

Upon completion, students will be equipped to analyze chemical processes in detail, design process equipment, and apply their knowledge to tackle engineering problems in various contexts. The skills gained in this course will be highly valuable for those pursuing careers in process design, equipment manufacturing, and process optimization.